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Dr. Vadim Cheianov is an Associate Professor in the Leiden Institute of Physics (LION) within the Faculty of Science at Leiden University. He leads the Cheianov Group, which specializes in theoretical quantum many-body physics with applications in condensed matter and ultracold atomic systems. His research interests span several cutting-edge domains in theoretical physics, including the behavior of mobile quantum impurities in quantum fluids, adiabatic protocols in driven many-body systems, mechanisms of non-ergodicity in quantum systems such as many-body localization and integrability, and the macroscopic manifestations of quantum anomalies like the chiral magnetic effect in condensed matter and cosmological contexts. The recent publications from his group reflect a strong focus on quantum dynamics, topological effects, and fundamental aspects of quantum statistical mechanics. These works integrate concepts from condensed matter, ultracold atoms, quantum field theory, and mathematical physics, often bridging theoretical predictions with potential experimental observations in quantum simulators and solid-state devices. Scientific Awards: NWO Physics Projectruimte Grant (2018) Dr. Cheianov has secured competitive research funding, including the NWO Physics Projectruimte grant awarded in 2018, which supports innovative and high-risk theoretical physics research. While formal advising roles are not detailed in the provided text, his leadership of an active research group implies mentorship of PhD and master’s students. His work contributes significantly to foundational understanding in quantum matter and has implications for quantum technologies and emergent hydrodynamic phenomena in quantum systems. The Cheianov Group operates within the Quantum Matter and Optics division of LION, collaborating with experimental and theoretical physicists to explore non-trivial quantum phenomena in both synthetic and natural quantum materials.

• Quantum Many-Body Physics
• Condensed Matter Theory
• Ultracold Atomic Systems
• +6 more

Servaas Kokkelmans is a Full Professor and leader of the Coherence and Quantum Technology group in the Department of Applied Physics at Eindhoven University of Technology (TU/e). He is also the scientific director of the Center for Quantum Materials and Technology Eindhoven (QT/e) and co-founder of the Eindhoven Hendrik Casimir Institute. His research focuses on strongly-interacting quantum gases, neutral atom quantum computing, and ultracold atomic systems. He holds a PhD from TU/e (2000) after postdoctoral work at JILA (USA) and Laboratoire Kastler Brossel (France). Notable roles include coordinating action line 1 (Research & Innovation) at Quantum Delta NL and leading the KAT-1 project on Rydberg atom quantum computing. Awards include the NWO Vici (2015) and Vidi (2003) grants. Education: MSc (1996) and PhD (2000) in Physics from TU/e. Career progression: Assistant Professor (2004–2017), Associate Professor (2017–2023), Full Professor (2023–present). Key research areas include quantum computing architectures, ultracold collisions, Feshbach resonances, and Efimov physics. Active in teaching courses like Quantum Optics and Quantum Information, and Hybrid Quantum Computing. Research highlights include foundational work on quantum control via electric/magnetic fields and contributions to quantum simulation platforms. His work spans experimental and theoretical studies, with over 249 publications and 51 supervised works. Collaborations involve institutions globally. Media engagements include interviews on quantum technology advancements and leadership roles in national quantum initiatives.

• Quantum Computing
• Quantum Gases
• Atomic Physics
• +4 more

Dr. Guanna Li is an Assistant Professor in the Biobased Chemistry and Technology group at Wageningen University & Research. Her research focuses on catalyst design and reaction mechanism studies in heterogeneous catalysis, leveraging advanced computational methodologies such as DFT, ab initio molecular dynamics (AIMD), and machine learning. She investigates dynamic catalyst behavior under reaction conditions and aims to establish structure-activity relationships for rational catalyst design. Key areas include biomass conversion, CO2 hydrogenation, and plastic upcycling. Dr. Li holds a dual PhD from Eindhoven University of Technology (TU/e) and Dalian Institute of Chemical Physics, with postdoctoral experience at TU/e and Delft University of Technology, supported by a VENI Talent Programme grant (NWO, 2016). She collaborates closely with experimental groups to bridge theory and practice in catalytic processes. Education: PhD in Heterogeneous Catalysis (TU/e), PhD in Raman Optical Activity (DICP), postdoctoral research at TU/e and Delft University of Technology. Research Interests: Multiscale modeling of catalytic reactions, transition metal carbide catalysts, CO2 hydrogenation to methanol, plastic upcycling via mechano-catalysis, and surface reaction dynamics. Her methodologies include DFT, AIMD, and machine learning for mechanistic insights. Projects: Transition metal carbide catalyst design, CO2 hydrogenation collaborations with DICP, and plastic upcycling initiatives. These projects emphasize synergy between computational and experimental approaches. Awards: VENI Talent Programme Grant (2016). Grants/Advising: Supervises MSc/PhD students and postdocs on catalysis and computational chemistry projects. Open to collaborations and applications for research positions. Labs/Teams: Leads a research team in Wageningen’s Biobased Chemistry and Technology group, emphasizing computational catalysis and sustainable chemical processes.

• Catalysis
• Computational Chemistry
• Heterogeneous Catalysis
• +3 more

Dr. Soheil Solhjoo is an Assistant Professor at the University of Groningen (UG) within the Engineering Systems and Design (ESD) group, part of the Engineering and Technology Institute Groningen (ENTEG) at the Faculty of Science and Engineering. His research focuses on model-based engineering design, physics-based deep learning, and digital twins, with expertise in constitutive modeling, molecular dynamics simulations, contact mechanics, and physics-informed neural networks. Prior to UG, he conducted postdoctoral research in European projects like VMAP and UPSIM, contributing to multiscale material modeling and hyperelastic material development for soft biological tissues. He holds a PhD from the University of Groningen (2017), where his thesis addressed nanotribological studies, including contact area measurement in atomistic simulations and continuum mechanics applications in nanocontacts. Academic Role: Assistant Professor (since 2024) Institution: University of Groningen Department: Engineering Systems and Design (ESD) Research Interests Dr. Solhjoo's research spans materials science and mechanical engineering, emphasizing: Constitutive modeling of metallic materials Molecular dynamics and statics simulations Contact mechanics at atomic and macro scales Integration of physics-based principles into neural networks Multiscale material characterization Publications Trends His articles predominantly address material deformation mechanisms, constitutive model validation, and nanoscale contact analysis. Key themes include hot deformation behavior of metals, computational methods for material characterization (e.g., HDFT tool), and bridging atomistic simulations with continuum mechanics. Awards & Grants No specific awards listed, but contributions to collaborative EU projects (VMAP, UPSIM) highlight his grant-funded research activities. Actively involved in educational grants for mechanical and industrial engineering curriculum innovation. Labs & Teams Part of the ESD group and ENTEG, collaborating with academic and industrial partners in EU frameworks. Maintains a research portal with open-access tools like the Hot Deformation Fitting Tool (HDFT).

• Materials Science
• Multidisciplinary Engineering
• Mechanical Metallurgy
• +5 more

Johan Pieter Maria Hoefnagels is Associate Professor of Micromechanics of Materials at Eindhoven University of Technology (TU/e), Department of Mechanical Engineering, where he leads the independent Hoefnagels group and the strategic Multi-Scale Laboratory dedicated to integrated micro-mechanical testing. Education: MSc (2000) and PhD (2005) in Applied Physics, Eindhoven University of Technology – thesis on “A novel diagnostic approach for studying silicon thin film growth” . International research visits to IMEC (Belgium), SUNY Albany (USA), NIST (USA), Harvard University (USA), Colorado School of Mines (USA), and KAUST. Research Focus: His group integrates advanced micro-mechanical testing, high-resolution microscopy (SEM, EBSD, AFM, µCT, DIC) and numerical modelling to understand and control micro-scale damage and failure mechanisms in pursuit of durable, sustainable materials. Ductile damage and fracture in metals Interface delamination and adhesion in stretchable electronics Size effects in miniaturised components and thin films Crystal plasticity and martensite/ferrite interface mechanics Hybrid and multi-phase material systems Research Output & Trends: Since 2019 his work has concentrated on multi-scale experimental–numerical studies of advanced steels (martensite/ferrite interfaces, dual-phase steels), additive manufacturing (wire-arc 316L), stretchable electronics (Cu/rubber delamination), and cellulose fibre networks. Recent articles reveal a strong emphasis on high-resolution digital image correlation, automated slip-system identification, and coupled hygro-thermo-mechanical testing. Scientific Awards & Recognition: NWO VIDI (2012), VENI (2008), RUBICON (2005) personal grants – totalling ~€10 M Editor-in-Chief, Strain – An International Journal for Experimental Mechanics (IF 2.2) Dutch representative, European Structural Integrity Society (ESIS) >150 invited/keynote conference presentations; organiser of 20+ international symposia Acta Materialia & Scripta Materialia 2019 Excellence in Reviewing award; Top Reviewer 2011, Engineering Fracture Mechanics PhD Advising & Grants: Principal supervisor of 27 PhD students and 18 post-docs/EngDs; co-author of 24 granted research proposals and 8 equipment investment proposals. The Multi-Scale Laboratory hosts state-of-the-art micro-mechanical testers and microscopes, serving departments across TU/e.

• Micromechanics of materials
• Ductile damage and fracture
• Interface mechanics and delamination
• +6 more

Dr. Oliver Plümper is an active researcher at Utrecht University's Faculty of Geosciences, specifically within the Earth Sciences department and the Structural Geology & Electron Microscopy group. His work spans multiple disciplines at the intersection of geology, chemistry, physics, and materials science, with a particular focus on understanding processes occurring at the nanoscale that influence large-scale geological phenomena. Plümper's research interests center around fluid-rock/mineral interaction, nano(geo)sciences, mineral physics, and rock deformation. He employs a multi-faceted approach that combines natural observations, experimental techniques, micro and nano-analytics, and numerical modeling to address fundamental questions in Earth sciences. His work particularly emphasizes how nanoscale processes in the Earth's interior can influence large-scale geological structures and phenomena, including mountain building, earthquake generation, and the carbon cycle. His current research portfolio includes several major projects: the ERC Starting grant 'nanoEARTH' investigating mineral-water interactions deep within the Earth; the Dutch Research Council Vidi project 'RELEASE' studying carbon cycling in subduction zones; the EU INFRAIA project 'EXCITE NETWORK' as co-Principal Investigator supporting access to advanced imaging facilities; the UIO-UU project 'serpAI' using artificial intelligence to study mantle rock alteration; and the UU-NIOZ project 'I-NANO' examining iron nanoparticles' effects on ocean biogeochemistry. These projects collectively demonstrate his focus on understanding how nanoscale processes influence planetary-scale phenomena. Plümper is a strong advocate for open science and transdisciplinary research, leading a diverse team of scientists from earth sciences, chemical engineering, mathematics, physics, and chemistry. He actively contributes to the Utrecht University Electron Microscopy Center and is involved in multiple initiatives promoting open access to analytical facilities. His collaborative approach is evident in his extensive publication record across high-impact journals including Nature Geoscience, PNAS, and Geology, with research spanning from fundamental mineral physics to applications in geothermal energy, raw material extraction, and carbon storage.

• Fluid-Rock Interaction
• Electron Microscopy
• Nanogeoscience
• +6 more

Rene Gerritsma is an Associate Professor at the Institute of Physics within the Faculty of Science at the University of Amsterdam, where he leads the Hybrid atom-ion Quantum Systems research group. His work focuses on quantum phenomena in ultracold atom-ion mixtures and trapped ion quantum computing, with significant contributions to reaching the quantum regime in hybrid systems and developing novel quantum simulation techniques. Education: 1997-2002: Physics, University of Groningen 2002-2007: PhD in Physics, University of Amsterdam (Thesis: Permanent magnetic atom chips and Bose-Einstein condensation) Research Focus: Gerritsma's group pioneers experiments with ultracold lithium atoms and ytterbium ions to study quantum entanglement, Bose-Einstein condensation, and quantum phase transitions in hybrid systems. They specialize in using optical tweezers to engineer soundwave modes in 2D ion crystals for quantum simulation, with applications in quantum error correction and spin liquid modeling. Recent work explores Rydberg-dressed interactions and chemical reactions in atom-ion mixtures at quantum degenerate temperatures. Publication Trends: His 2010-2022 publications reveal a progression from fundamental atom-ion interaction studies to advanced quantum computing applications. Key themes include buffer gas cooling breakthroughs (2020), Rydberg atom-ion interactions (2019), and optical tweezer-based quantum gate engineering (2017-2022), demonstrating increasing sophistication in controlling quantum systems for computation and simulation. Scientific Awards: Marie-Curie fellowship (2007) ERC starting grant (2013) Vidi grant (NWO) (2015) NWO Startup grant (2017) NWO Vici grant (2021) Advising and Funding: Gerritsma has supervised three PhD students to completion (Trimby, Mazzanti, Hirzler) and secures major research funding through competitive grants. His group receives primary support from the European Research Council (ERC Starting Grant) and Dutch Research Council (NWO Vici, Startup, Projectruimte grants), with additional funding through the Vrije Programma Atomic Quantum Simulators 2.0. Laboratory Operations: Based at Science Park 904 in Amsterdam, his experimental lab combines Paul ion traps with ultracold atom systems, featuring spatial light modulators and acousto-optical deflectors for optical tweezer control. The group collaborates internationally through QuSoft and participates in workshops like the 2024 Workshop on Quantum Mixtures of Atoms and Ions.

• Quantum Physics
• Ultracold Atoms and Ions
• Quantum Computing
• +2 more

Ronnie Hoekstra is a Full Professor at the University of Groningen's Faculty of Science and Engineering, leading the Quantum Interactions and Structural Dynamics group within the Zernike Institute for Advanced Materials. He holds a PhD in Physics and has extensive postdoctoral experience in atomic and molecular physics, including roles at AMOLF (Netherlands), the JET fusion reactor (UK), and the University of Osnabrück (Germany). His research focuses on ion interactions, plasma dynamics, and EUV light sources for semiconductor applications. He is a founding member of the Advanced Research Center for Nanolithography (ARCNL) and serves as group leader there. Education: Studied Applied Physics at the University of Groningen, completed his PhD under Prof. Frits de Heer (AMOLF). Postdoctoral work at JET and Osnabrück University. Research Interests: Electron capture mechanisms, laser-driven plasmas, EUV nanolithography, and surface science. His work contributes to the development of next-generation semiconductor manufacturing technologies and fundamental plasma physics. Grants & Collaborations: Secured multiple EU, EURATOM, and NWO grants. Collaborates with ASML, ARCNL, and international institutions like the European Physical Society. Leads projects on plasma dynamics and ion-beam interactions. Labs/Teams: Heads the Quantum Interactions and Structural Dynamics lab at the Zernike Institute and the EUV Plasma Dynamics group at ARCNL.

• Atomic Physics
• Molecular Physics
• Plasma Dynamics
• +4 more

Marcel Rost is a Researcher at the Leiden Institute of Physics (LION) , Leiden University, focusing on fundamental surface science and electrochemical processes at atomic scales. His work bridges thin film technology , electrocatalysis , and scanning probe microscopy (SPM) innovations. Developed high-speed EC-STM for real-time electrochemical imaging Explores platinum electrode degradation mechanisms in energy applications Pioneered Subsurface-AFM for nanoscale friction-based imaging His research combines thermodynamic modeling , kinetic Monte Carlo simulations , and custom SPM systems to address unresolved questions in surface stress, island nucleation, and additive effects in copper electrodeposition . Collaborations with semiconductor industries and institutions like TU Wien and Forschungszentrum Juelich highlight his impact. Scientific awards include the Vidi Subsidy (2009) and TOP Subsidy (2018) . His lab's 15+ recent publications (2017–2024) cover topics such as platinum roughening , heterodyne force microscopy , and additive-driven deposition , with implications for catalysis , microelectronics , and material synthesis .

• Surface Science
• Electrocatalysis
• Electrochemistry
• +4 more

Dr. Laurens Mandemaker is an Assistant Professor at Utrecht University's Faculty of Veterinary Medicine, Department of Population Health Sciences, and affiliated with the Institute for Risk Assessment Sciences (IRAS). His research focuses on microplastics, nanotechnology, and catalysis, utilizing advanced techniques like atomic force microscopy and spectroscopy . Key Projects: MOMENTUM (Microplastics & Human Health), AURORA (Early-Life Health Impacts), NWO-XS (Nanoplastics in Babies), SPARK (Dialysis-Related Plastic Detection) His work bridges environmental toxicology and materials science , with recent publications on nanoplastic detection, bioplastic films, and MOF-based catalysts. He contributes to courses like Chemistry and Sustainability and collaborates on interdisciplinary exposomics studies.

• Microplastics
• Catalysis
• Spectroscopy
• +5 more

F. Alijani is a researcher at TU Delft in the Dynamics of Micro and Nano Systems department. Their work focuses on nonlinear dynamics, nanomechanical resonators, and graphene-based sensor technology. Department: Dynamics of Micro and Nano Systems Research interests include: Nonlinear dynamics of 2D materials Graphene engineering for bio-sensing Atomic force microscopy (AFM) applications Optimization of nanomechanical systems Structural and aeroelastic modeling Recent publications highlight advancements in topology optimization, bacterial nanomotion detection, and AFM techniques. Collaborations include institutions like TU Delft and TU Delft - 4TU.ResearchData for datasets. No scientific awards are explicitly mentioned in the provided data. Labs & teams: Dynamics of Micro and Nano Systems group at TU Delft, working with Prof. P.G. Steeneken and Prof. A.M. Aragón.

• Nonlinear Dynamics
• Nanomechanical Resonators
• Graphene Engineering
• +4 more

Rianne S. Lous is an Assistant Professor at the Eindhoven University of Technology (TU/e), working within the Department of Applied Physics and Science Education at the Eindhoven Hendrik Casimir Institute. She joined the Coherence and Quantum Technology (CQT) group in June 2022 and leads the SIntAQS (Sensing Interactions in Atomic Quantum Systems) research group. Her work focuses on quantum technologies, particularly in the atomic, molecular and optical physics domain. Education: Bachelor's degree in Natural Sciences and Physics and Astronomy at Radboud University, Nijmegen, Netherlands Master's degree (with honors) in Nanoscience at University of Groningen, Netherlands (included internship at ITAMP, USA) Ph.D. and first PostDoc at University of Innsbruck and IQOQI (Austrian Academy of Sciences) in Prof. Grimm's group PostDoc at University of Amsterdam in Dr. Rene Gerritsma's group (2019) Rianne Lous's research primarily focuses on quantum simulation and computation with ultracold atoms and ions. Her work centers on understanding interactions in atomic, molecular and optical systems, with specific interests in ion-atom mixtures and Rydberg atom quantum computing. She is particularly interested in impurity physics, quantum chemistry and sensing, as well as quantum simulation & computation with ultracold atoms & ions. Her research aims to build quantum computers that can calculate properties of quantum many-body systems or build quantum simulators to improve fundamental understanding of quantum phenomena. Her recent publications show a strong focus on experimental quantum physics, particularly exploring ion-atom interactions, buffer gas cooling techniques, and chemical reactions in ultracold environments. Her work bridges theoretical quantum physics with practical experimental setups, contributing significantly to the understanding of quantum many-body systems and their potential applications in quantum computing. Scientific Awards: Marie-Sklodowska Curie European fellowship from the EU Horizon 2020 research and innovation program Rianne Lous actively supervises multiple students at various levels. Her current research group includes PhD candidates Claudia Galantini and Luc Verwaal, along with BSc student Borys Lelonkiewicz. She has previously supervised several MSc students and BSc students including Iris Podbevsek, Rogier Venderbosch, and Luuk van Leendert. Her research is supported by multiple funding sources including the European Union's Horizon programs and Netherlands Organization for Scientific Research. She is establishing the SIntAQS laboratory, which focuses on building an ultra-high vacuum setup where a hybrid atom-ion system can be controlled and studied using electric, magnetic, and optical fields. This experimental setup aims to explore quantum simulation of many-body physics, quantum computation, sensing, and chemistry using trapped ions and ultracold neutral quantum gases.

• Quantum Technologies
• Atomic Molecular and Optical Physics
• Quantum Simulation
• +5 more

Dr. Anna Louise Smith is an Associate Professor in the Reactor Physics and Nuclear Materials section at the Radiation Science and Technology department of Delft University of Technology (TU Delft). She is a physical chemist and materials scientist specializing in nuclear materials, with expertise in both experimental and computational approaches to studying advanced nuclear fuel systems. Dr. Smith earned her "diplôme d'ingénieur" from Chimie ParisTech in 2011, conferring a Master of Science in Chemistry and Chemical Engineering. She simultaneously completed an M.Phil. in Advanced Chemical Engineering from the University of Cambridge. She received her PhD in Materials Science and Metallurgy from Cambridge in 2015, after spending three years at the Joint Research Centre in Karlsruhe, Germany, where she developed expertise in nuclear fuel chemistry and chemical thermodynamics of actinide materials. Her research focuses on the chemistry of advanced nuclear fuels, including ceramics (oxides) and molten salts (fluorides and chlorides), with particular interest in structure-property relationships. She combines experimental and computational studies to investigate physico-chemical properties from atomic to macroscopic scales, with applications to next-generation nuclear reactor technologies emphasizing safety and sustainability. Her current interests include the chemistry of fission products in oxides and molten salts, interaction chemistry between fuel, coolant, and cladding materials, and corrosion issues at high temperatures in nuclear reactor environments. Analysis of Dr. Smith's recent publications (2022-2025) reveals a strong focus on thermodynamic properties of molten salt systems, particularly those relevant to nuclear fuel cycles. Her work spans fundamental studies of actinide chemistry in molten fluorides and chlorides, corrosion mechanisms between molten salts and structural materials, and the development of thermodynamic models for complex multi-component systems essential for molten salt reactor design. She has made significant contributions to understanding the behavior of thorium-based fuel systems and corrosion products in high-temperature environments. Dr. Smith has established a research team and laboratory at TU Delft specifically designed for handling uranium and thorium materials. Her work contributes to several major European projects focused on advanced nuclear technologies, including the MIMOSA and ENDURANCE projects that explore the safety and performance of molten salt reactors for deployment in the European Union. She collaborates extensively with researchers across Europe and has published over 50 research outputs including articles, book chapters, and review papers.

• Nuclear materials chemistry
• Experimental thermodynamics
• Computational thermodynamics
• +9 more

Bart Weber is an Assistant Professor at the University of Amsterdam and Group Leader of the Contact Dynamics group at the Advanced Research Center for Nanolithography (ARC-NL) in the Netherlands. His research focuses on tribology, specifically the interplay between friction, lubrication, wear, and surface topography. Key interests include capillary adhesion effects, water-influenced friction on granular materials, and the slipperiness of ice. Current work emphasizes nanolithography-related friction in stiff materials, combining experimental and theoretical approaches. His research employs advanced techniques such as stress-sensitive fluorescent probes and super-resolution imaging to visualize contact mechanics. Weber’s studies bridge nanoscale phenomena with macroscopic outcomes, particularly in understanding wear and adhesion dynamics. Notable contributions include exploring capillary adhesion in diamond corrosion, friction control via siloxane bonding, and mechanisms underlying Teflon’s slipperiness. He leads a multidisciplinary team at ARC-NL, addressing challenges in materials science and nanotechnology. Despite no explicit mention of awards, his publications reflect sustained high-impact contributions to tribology and materials science.

• Tribology
• Friction Mechanics
• Wear Behavior
• +3 more

Andrey Yakshin is an Assistant Professor at the University of Twente’s MESA+ Institute, specializing in XUV Optics. His research focuses on surface physics, thin film interfaces, and materials characterization using techniques like Low-Energy Ion Scattering (LEIS). He has contributed to understanding W/Si and W/Al multilayer systems, interface dynamics, and nanoscale material behavior. Key research areas include interface characterization, nanotechnology, and optical properties of advanced materials. He collaborates internationally on projects involving XUV applications and thin film engineering. His work aligns with UN Sustainable Development Goals, particularly in advancing clean energy technologies through material innovation. Yakshin has supervised 10 research projects and actively participates in academic activities, including invited talks and international conferences.

• Surface Physics
• Thin Film Technology
• Materials Science
• +3 more